dtourolle
0da0a9f16c
The coverage gate divided traced counts by hardcoded literals (UR/39, IR/24, DR/48, JA/3, TOTAL_REQS=114) that had fallen out of date as requirements grew to 211. It reported 158% coverage — JA alone printed 800% — so the 50% threshold was mathematically unreachable and the job could not fail. Coverage could have collapsed to 30% and CI would still have printed a green tick. Real coverage is 86%. The number was fine; the gate was dead. extract-traces.ts now owns both sides of the fraction: - countDefinedRequirements() counts an ID only where it leads a markdown table row, ignoring the "Traces To" column and prose. IDs are deduplicated because requirements.md lists every UR twice (§1 definition + §3 matrix), which would otherwise report UR as 121/61. - computeCoverage() uses the intersection of traced and defined IDs, so a TRACES comment naming a deleted or typo'd requirement is reported as `orphaned` rather than inflating the ratio past 100%. UT/IT test identifiers are excluded as a separate taxonomy. - CI reads .coverage.percent and fails on <50% or >100%; a >100% reading is now a hard error rather than the condition that hid this bug. - New `bun run traces:coverage` runs the same computation locally. - scripts/ added to the scan roots — the coverage tool was invisible to the matrix it generates. Tests written first (15, over fixtures so they don't drift as requirements are added). vitest include widened to scripts/** so build tooling is covered by the normal suite. Verified empirically rather than by inspection: forcing the threshold to 99% fails; adding a requirement lowers coverage 86%→85%; a TRACES: DR-999 lands in `orphaned` without changing `covered`. traceability-ci.md documented the same stale numbers and would have let the broken arithmetic be reconstructed — replaced with a pointer to the live command.
JellyTau
A cross-platform Jellyfin client built with Tauri, SvelteKit, and TypeScript.
Business logic lives in a Rust backend; a UI-rich Svelte frontend handles presentation and talks to it over Tauri's IPC. Targets Linux (libmpv) and Android (ExoPlayer).
Getting Started
This project uses bun as its package manager.
# Activate the Rust environment (fish shell)
source "$HOME/.cargo/env.fish"
# Install dependencies
bun install
# Run in development
bun run tauri dev
# Type-check the frontend
bun run check
# Build for Linux
bun run tauri build
# Build for Android
bun run tauri android build
For the full set of build, test, and Android helper scripts, see scripts/README.md.
Documentation
| Topic | Location |
|---|---|
| Architecture overview & subsystem docs | docs/architecture/ |
| Requirements, traceability & technical debt | docs/requirements.md |
| Build & release process | docs/build-release.md |
| Docker builds | docs/build/docker.md |
| Traceability tooling & CI | docs/traceability.md, docs/traceability-ci.md |
| Release checklist | docs/release-checklist.md |
| UX flows | docs/ux-flows.md |
Recommended IDE Setup
VS Code + Svelte + Tauri + rust-analyzer.
License
MIT